Cosmology
Exploding black holes could explain an antimatter mystery
Shock waves from tiny black holes in the early universe could explain how antimatter became so rare while matter is common.
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Shock waves from tiny black holes in the early universe could explain how antimatter became so rare while matter is common.
We summarize the week's scientific breakthroughs every Thursday.
At cold temperatures, water has two different liquid phases, which become one at the critical point. The discovery could help explain water’s quirks.
Scientists are envisioning an antimatter delivery program that could ferry antiprotons from CERN to other labs around Europe.
Phantom crane flies change the angle of their splayed legs to increase or reduce drag, helping them navigate varying winds.
Scientists tracked mantis strike force from youth to adulthood, showing females eventually hit far harder than males. Why is a mystery.
Seemingly random charging of identical materials depends on the carbonaceous molecules stuck to their surfaces
Ultraviolet cameras captured faint electrical flashes from leaves and branches as storm charges built up in the atmosphere.
A sudden release of pressure allowed a copper-based compound to superconduct at the highest temperature yet for atmospheric pressure, a study claims.
A molecule made of carbon and chlorine is half as twisty as the paper loops common in math classes.
Tiny, repeating detachments between sole and floor — thousands of times a second — create the distinctive squeak heard on the court, data show.
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